To get Australia’s grid 82% powered by renewables by 2030 is a huge increase. At present, the electricity powering eastern and southern states is around .
Authors
Jay Rutovitz
Research Director, Institute for Sustainable Futures, University of Technology Sydney
Chris Briggs
Research Director, Institute for Sustainable Futures, University of Technology Sydney
Rusty Langdon
Research Consultant, University of Technology Sydney
To get there means a lot of work. Over the next seven years, it would be installing dozens of large wind turbines every month, and tens of thousands of solar panels every day.
And work needs workers. To make this happen, 15,000 more workers are needed by 2025 – less than three years away. That’s amid a skills shortage, an and unemployment rates at the lowest level in decades.
So how to do it? We need to train more skilled workers and give them more security. Renewable projects have tended to operate on boom-bust cycles when it comes to jobs. But to get where we need to be, we need to shift to a long-term boom mentality. We’re going to need people doing these jobs for decades to come.
How big is this issue?
Big. Getting to 82% renewables and fast means we need to greatly scale up the electricity sector workforce in generation, storage and transmission line construction.
We estimate the current workforce is around 41,000, including 12,000 working in coal and gas power stations or supplying those power stations with fuel. This is only an estimate, as updated figures won’t be available until the federal government delivers its promised .
Australia’s energy market operator, AEMO, publishes regularly updated pathways to a clean-energy future. Now we have federal backing for accelerated timelines, the most likely outcome is the so-called ““. This scenario envisages nine times more wind and solar by 2050, to boost capacity to 141 gigawatts, and four times more rooftop solar.
Under this scenario, 15,000 more workers must be ready and able to build and operate renewables and storage, or build transmission lines, by 2025.
The problem is, these workers don’t exist at present. Many existing skilled workers are already paid well by major infrastructure projects, such as metro rail projects in Melbourne and Sydney and regional projects such as inland rail. What’s more, unemployment rates are the lowest in decades, and peak demand for labour to build wind and solar projects is set to outstrip the in some regional areas where the renewable projects will be concentrated.
To add to the challenge, skilled workers tend to live in major population centres – but clean energy projects are virtually all in the regions. So the clean energy sector must compete with big infrastructure projects in the cities, which pay more and don’t involve travel. You can see the challenge. If we don’t get this right, the clean energy transition just won’t happen.
The common answer to workforce shortages is to train more workers. But here, too, there are challenges. Our skilled training sector has long been in the doldrums, with demand spread thin across far-flung regions and policy uncertainty leaving many gaps in capacity.
15,000 new skilled workers are just the start
We needed to achieve three of the AEMO scenarios: the step change, the hydrogen superpower and the slow change. We also modelled an offshore wind scenario, using AEMO’s modified step change “sensitivity” which takes into account for offshore wind.
Under the step change scenario, we found the demand for skilled jobs will increase 37,000 from 2023 and peak at 81,000 in 2049.
But if Australia becomes a major exporter of renewable energy in the form of green hydrogen or green ammonia, as backers like iron ore billionaire Twiggy Forrest , that’s a different story. It would require up to twice the workers of the step-change scenario in the 2030s, and up to triple in the 2040s.
That’s a staggering peak demand of 237,000 jobs, with an average demand of 110,000. To get there, we would need 34,000 extra workers within three years.
Where will the jobs be? New South Wales will be the leading state in most scenarios, with a demand for over 20,000 skilled workers annually until 2050 under the step-change scenario. Across NSW, Queensland and Victoria, the job split by technologies is very similar in this scenario: 37% of jobs in solar, 27-30% for wind, and 17-22% in batteries. The pattern is similar in the offshore wind and slow-change scenarios.
What about the hydrogen superpower scenario? This would change things dramatically. Here, the highest demand for renewable jobs would be in Queensland, South Australia and Tasmania. Compared to the step-change scenario, Queensland would add over 100,000 jobs, while jobs in South Australia would more than treble and Tasmania quadruple from 2,200 to 9,400. Relatively modest growth is projected for NSW and Victoria – 4,000 new jobs in both states compared to the step change.
We can’t just leave it to the market
Coordinated action is needed to plan and implement skills, training and workforce development. Here, state and territory governments can build on the recent creation of – essentially, renewable rich areas where transmission lines exist or will be built – to boost collaboration between industry and government on training strategies and programs.
Workforce planning should be brought into overall energy system planning, to help reduce the employment boom-bust cycle. Most electricity planning favours “just in time” construction, where infrastructure is built as it is needed. That means demand for labour is volatile. The NSW government has created an and created to co-ordinate the development of the renewable energy zones and maximise local benefits.
Given current shortages of workers, it’s vital governments take action now. Acting early would help future-proof our clean energy workforce and maximise benefits for regional areas. Even better, we could help boost numbers of workers from under-represented groups such as women and First Nations communities.
Jay Rutovitz received funding for this work from the RACE for 2030 CRC, the Government of NSW, and the Government of Victoria. The Australian Energy Market Operator was a partner in the work.
Chris Briggs received funding for this research from the RACE for 2030 CRC, the Government of NSW, and the Government of Victoria. The Australian Energy Market Operator was a partner in the work.
Rusty Langdon received funding for this research from the RACE for 2030 CRC, the Government of NSW, and the Government of Victoria. The Australian Energy Market Operator was a partner in the work.
